JWST Virgil SMBH: A Critical Validation of the Thermosynthesis Cosmological Theory

This work presents a rigorous mathematical analysis of the James Webb Space Telescope (JWST) discovery of the Virgil galaxy, which hosts an overmassive supermassive black hole (SMBH) at a cosmic age of 800 Myr (z ∼ 7–8). Within the framework of the Thermosynthesis Cosmological Theory (TTC), this observation is not an anomaly but a direct prediction of a cyclic, emergentcosmology driven by a primordial superfluid of ultralight scalar bosons—etherions—with mass me = (1.00 ± 0.05) × 10−22 eV.We formalize how Virgil’s SMBH arises naturally from the initial supermassive black hole (mass Minit ≈ 3.11 × 1054 kg) that seeds the entire cosmos in TTC. This model resolves the early SMBH formation tension by enabling rapid, recursive growth via entropic crystallization in etherion-dominated mini-halos. The system’s infrared-dominant, optical-quiet emission is explained as dust-obscured accretion, a hallmark of TTC’s feedback-driven early structure formation.The analysis demonstrates that Virgil provides strong empirical support for TTC’s resolution of multiple cosmological tensions, including the Hubble tension (H0 ≈ 67.66 km s−1 Mpc−1), the cusp–core problem, and the strong CP fine-tuning. The work concludes with specific, falsifiable predictions for JWST, LIGO, DESI, and the LHC.